Nah, he bashes Intel for a living.You argue on forums for a living?
Also, 3.7-3.9ghz is indeed the final clock for Gracemont.
Nah, he bashes Intel for a living.You argue on forums for a living?
Also, 3.7-3.9ghz is indeed the final clock for Gracemont.
You explicitly claimed that Atom would reach nowhere near 4GHz, even overclocked. Increasingly looks like we're getting 3.9GHz out of the box. Same applies for the IPC uplift.
What official numbers?
There s no data published that is related to small cores IPC, so how do you estimate any uplift if ever there s one..?.
That presentation from yesterday. You didn't even bother to look at the slides before calling them all fake?
Nah, he bashes Intel for a living.
Just to make sure: you want to know why it would be impossible for Gracemeont to have almost Golden Cove PPC?!Why would that be impossible again?
LOL, what numbers? It was all marketing fluff. There was not a single actual spec in the entire presentation.
Gracemont performance will surprise you. That is the thing: it isn't a "little" core.It's not included in the graph, unless you think Gracemont has a ~35%+ PPC advantage over Skyalke. (that would be almost Golden Cove PPC)
So you even deny that numbers were presented, despite being right there in black and white. At this point you're not even trying to hide the trolling.
And when Gracemont inevitably hits around 4GHz, will you retract all of your past claims to expertise?
Gracemont performance will surprise you. That is the thing: it isn't a "little" core.
Just to make sure: you want to know why it would be impossible for Gracemeont to have almost Golden Cove PPC?!
No, not above. But it isn't as much behind in performance as people think either.It's not going to be above GLC except at very low power. But it doesn't need to when you get like twice the throughput PPA.
Point out to any real numbers in the midst of that fluff. I want to see what you consider a real data point.
And no, I will always know more about silicon engineering than you, forever. Sorry.
So first they didn't show any numbers, and now they're not "real" because you're unwilling to accept them. What a surprise.
And I'll be more than happy to use your claims about Gracemont as a demonstration of your ignorance about anything silicon engineering. Care to double down again on your 4GHz claim?
There you go making stuff up again. There are literally no numbers there.
If we compare our Efficient-core to a single Skylake core for a single logical process, we deliver the same performance while consuming less than 40% of the power.
Alternatively, a Skylake core would consume 2.5X more power to achieve the same performance as our Efficient-core.
By the way, if you are really as good at silicon engineering as you think, the market is incredibly hot for silicon engineers right now. $300k+/year even outside Bay Area for mid-seniority roles. Why not get paid instead of running your mouth on the internet?
Psst: dmens always moves the goal post. He asks for numbers, then claims that the numbers are not what he really wants. He'll come back saying without labels on the axis, the graphs are meaningless. He couldn't make it during his stint at Intel and is now pissed at Intel.Here you go, numbers. Just one example.
And why are you assuming I'm not? Probably doing better than an "engineer" who thinks process scaling is a myth, lol.
Here you go, numbers. Just one example.
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And why are you assuming I'm not? Probably doing better than an "engineer" who thinks process scaling is a myth, lol.
Well, I already pointed out the fatal flaw with this claim earlier
That flaw being what? Your inability to accept the numbers? The same numbers you were just claiming didn't exist?
Here you go, numbers. Just one example.
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And if you go to the source. E.g.
And why are you assuming I'm not? Probably doing better than an "engineer" who thinks process scaling is a myth, lol.
So, if you shrinked the process size, you'd get close to 40% better, Gracemont is close to 40% better with a process node shrink, so I'm supposed to conclude that the Gracemont data is fake? I'm not quite following. It is almost as if you proved the opposite of what you wanted to prove.As already said a shrinked SKL would reproduce the first graph, it would gain close to 40% better perf at isopower.
So, if you shrinked the process size and used double the cores, you'd get close to 100% better, Gracemont is close to 80% better with a process node shrink and 2 cores (not quite 100% because it is Atom-based after all), so I'm supposed to conclude that the Gracemont data is fake? I'm not quite following. It is almost as if you proved the opposite of what you wanted to prove.For the second graph a shrinked SKL would use 50% less power, stick two cores together and they ll exhibit 100% more perf at isopower..
Diminishing returns apply for anything that increases size or power. If making a cache 2x bigger increases performance by 'y' then another doubling does not mean you are now getting '2y' more performance.
The flaw is that graph is that it fails to specify the perf at iso-power comparison, or the power draw at iso-perf comparison.
If we compare our Efficient-core to a single Skylake core for a single logical process, we deliver 40% more performance at the same power.
If we compare our Efficient-core to a single Skylake core for a single logical process, we deliver the same performance while consuming less than 40% of the power.
Alternatively, a Skylake core would consume 2.5X more power to achieve the same performance as our Efficient-core.
If we compare four of our new Efficient-cores against two Skylake cores running four threads, we deliver 80% more performance while still consuming less power.
Alternatively, we deliver the same throughput while consuming 80% less power. This means that Skylake would need to consume 5 times the power for the same performance.
If the comparison is done at an operating point which grossly favors one design, then it is extremely misleading, and you cannot extrapolate that comparison to other operating points.